Carbon emission monitoring outer frame device

Abstract

According to the technical scheme, the carbon emission monitoring outer frame device is characterized in that the carbon emission monitoring outer frame device comprises a bottom support, the bottom support is detachably connected with a plurality of supporting frames, the supporting frames are fixedly connected with a top support, and the side face of the bottom support is further fixedly connected with an outer wall plate which is in sliding connection with the supporting frames and detachably connected with the top support; the bottom of the bottom support is further detachably connected with a bottom sealing plate and supporting legs arranged below the bottom sealing plate, the bottom sealing plate is fixedly connected with a plurality of air inlet fans, the top support is fixedly connected with a top sealing plate, and the top sealing plate is connected with a detection assembly. The bottom support, the supporting frame and the top support are arranged to serve as a supporting structure, the height of the gravity center is controlled with the assistance of the outer wall plate, the whole device is stably arranged outdoors, the influence of severe weather is reduced as much as possible, switching of different functions is achieved through the bottom sealing plate, and the whole device is made to be more practical.

Description

Technical Field

[0001] This utility model relates to a monitoring device, and more specifically, to a carbon emission monitoring frame device. Background Technology

[0002] The application of carbon emission monitoring technology in outdoor scaffolding devices faces several problems and challenges, mainly due to the special working environment of the scaffolding system, which makes the carbon emission monitoring results inaccurate. This is usually caused by impurities in severe weather conditions disturbing the concentration of carbon-containing gases and clogging the detection ports. Existing technologies typically use temporary tents to reduce environmental impact, but in actual use, it has been found that the temporary tents themselves are not stable enough, and in severe weather, they may even blow away the carbon emission monitoring device. Therefore, there is a need for a carbon emission monitoring scaffolding device that can be stably installed outdoors and minimize the impact of severe weather.

[0003] For the reasons mentioned above, the problem addressed in this application is how to securely install the equipment outdoors while minimizing the impact of severe weather. Utility Model Content

[0004] To address the shortcomings of existing technologies, a carbon emission monitoring frame device is provided, which can be stably installed outdoors and minimize the impact of severe weather.

[0005] To achieve the above objectives, the following technical solution is provided: a carbon emission monitoring external frame device, including a bottom support, multiple support frames detachably connected to the bottom support, a top support fixedly connected to the support frames, an outer wall panel slidably connected to the support frames and detachably connected to the top support fixedly connected to the side of the bottom support, a bottom sealing plate and support feet located below the bottom sealing plate detachably connected to the bottom of the bottom support, multiple air intake fans fixedly connected to the bottom sealing plate, a top sealing plate fixedly connected to the top support, and a detection component connected to the top sealing plate.

[0006] In summary, the above technical solution has the following beneficial effects: Carbon emission detection involves many objects, commonly including plants or environmental pollution in a certain area. Therefore, this utility model achieves the switching between these two functions by setting a detachable bottom sealing plate. When the bottom sealing plate is installed on the bottom support, a relatively sealed space can be formed, in which the detection plant can be placed. Turning on the inlet fan can control the flow of gas to achieve real-time carbon emission detection. Turning off the inlet fan can seal the inner wall, thus allowing the detection of carbon emission concentration changes within a fixed volume. When the bottom sealing plate is not installed on the bottom support, the air pressure change of the carbon emission monitoring outer frame device can be controlled by the air intake function of the detection component itself, thereby achieving the purpose of drawing gas into the detection component from the bottom. In this way, the gas flow will be U-shaped. On the one hand, large particulate impurities in the air can be deposited on the ground to avoid direct accumulation at the detection component. On the other hand, the outer wall panel can block air coming from the side, thereby avoiding damage to the detection component and minimizing the impact of severe weather.

[0007] In addition, this utility model adopts a combined support method, which breaks down the overall support into a bottom support, a support frame and a top support. The outer wall panel is used as the main blocking body and the support foot is used as the main supporting body. This can press down the center of gravity, making the whole device more stable. Since the outer wall panel itself has a certain weight, it can help to lower the center of gravity and maintain the stability of the device. On the other hand, it can also support the top support and prevent the top support from being damaged in bad weather.

[0008] This utility model uses a bottom bracket, a support frame, and a top bracket as a support structure, and controls the center of gravity height with an external wall panel, so that the whole device can be stably installed outdoors and the impact of severe weather can be minimized. In addition, a bottom closed plate is set to switch between different functions, making the whole device more practical. Attached Figure Description

[0009] Figure 1 This is a top cross-sectional view of an external carbon emission monitoring device;

[0010] Figure 2 This is a three-dimensional structural diagram of the present invention;

[0011] Figure 3 This is a side sectional view of the present invention.

[0012] Reference numerals: 1. Bottom bracket; 2. Support frame; 3. Top bracket; 4. Exterior wall panel; 5. Testing assembly; 6. Corridor; 7. Buffer room; 8. Testing room;

[0013] 11. Bottom enclosure panel; 12. Support legs; 13. Inlet fan; 14. Isolation wall; 15. Inner isolation door;

[0014] 111. Track; 112. Socket;

[0015] 31. Top enclosure panel; 32. Channel; 33. Motor; 34. Rotating shaft; 35. Cleaning brush; 36. Storage box;

[0016] 41. External isolation door; 42. Platform;

[0017] 51. Test unit; 52. Exhaust pipe; 53. Filter screen. Detailed Implementation

[0018] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments. Identical components are indicated by the same reference numerals. It should be noted that the terms "front," "rear," "left," "right," "upper," and "lower" used in the following description refer to directions in the accompanying drawings, and the terms "bottom surface," "top surface," "inner," and "outer" refer to directions toward or away from the geometric center of a specific component, respectively.

[0019] Reference Figure 1-3 As shown, a carbon emission monitoring external frame device includes a bottom support 1, a plurality of support frames 2 detachably connected to the bottom support 1, a top support 3 fixedly connected to the support frames 2, an outer wall panel 4 fixedly connected to the side of the bottom support 1 and slidably connected to the support frames 2 and detachably connected to the top support 3, a bottom sealing plate 11 and a support foot 12 located below the bottom sealing plate 11 are also detachably connected to the bottom of the bottom support 1, a plurality of air intake fans 13 are fixedly connected to the bottom sealing plate 11, a top sealing plate 31 is fixedly connected to the top support 3, and a detection component 5 is connected to the top sealing plate 31;

[0020] Carbon emission detection involves many objects, commonly including plants or environmental pollution in a certain area. Therefore, this utility model achieves the switching between these two functions by setting a detachable bottom sealing plate 11. When the bottom sealing plate 11 is installed on the bottom bracket 1, a relatively sealed space can be formed, in which the detection plant can be placed. Turning on the inlet fan 13 can control the flow of gas to achieve real-time carbon emission detection. Turning off the inlet fan 13 can seal the inner wall, thus detecting changes in carbon emission concentration within a fixed volume. When the bottom sealing plate 11 is not installed on the bottom bracket 1, the air pressure change of the carbon emission monitoring outer frame device can be controlled by the air intake function of the detection component 5 itself, thereby achieving the purpose of drawing gas into the detection component 5 from the bottom. In this way, the gas flow will be U-shaped. On the one hand, large particulate impurities in the air can be deposited on the ground to avoid direct accumulation at the detection component 5. On the other hand, the outer wall plate 4 can block the air coming from the side, thereby avoiding damage to the detection component 5 and minimizing the impact of severe weather.

[0021] Furthermore, this utility model adopts a combined support method, which divides the overall support into a bottom support 1, a support frame 2 and a top support 3, and uses an outer wall panel 4 as the main blocking body and a support foot 12 as the main supporting body. This can lower the center of gravity and make the whole device more stable. Since the outer wall panel 4 has a certain weight, it can help lower the center of gravity and maintain the stability of the device. On the other hand, it can also support the top support 3 and prevent the top support 3 from being damaged in bad weather.

[0022] This utility model uses a bottom bracket 1, a support frame 2, and a top bracket 3 as a support structure, and an outer wall panel 4 to control the center of gravity height, so that the whole device can be stably set up outdoors and the impact of severe weather can be minimized. In addition, a bottom closed plate 11 is set to switch between different functions, making the whole device more practical.

[0023] Furthermore, the bottom support 1 is also fixedly connected to a number of isolation walls 14 that can be detachably connected to the top support 3 and the outer wall panel 4. The isolation walls 14 are detachably connected to an inner isolation door 15. The outer wall panel 4, the inner isolation door 15 and the isolation walls 14 separate a corridor 6, a number of buffer rooms 7 and a number of test rooms 8. The buffer room 7 is connected to the corridor 6 and the test room 8 through the inner isolation door 15. The corridor 6 and the test room 8 are not connected. The detection component 5 is located in the test room 8.

[0024] The exterior wall panel 4 is fixedly connected to an external isolation door 41 that communicates with the corridor 6;

[0025] Since this utility model adopts an assembly process, the interior needs to be divided into compartments of different shapes according to the function. With the bottom support 1 as the main body, the position of the inner isolation door 15 and the isolation wall 14 can be freely set, thereby freely allocating the size of each compartment. From a practical point of view, the corridor 6 connected to the outer isolation door 41 is isolated as the main internal movement space. The buffer room 7 connected to the corridor 6 is set up for temporary transfer of materials or disinfection operations, while the test room 8 is only connected to the buffer room 7. This can avoid the staff on the corridor 6 from affecting the test objects.

[0026] In addition, the testing room 8 can be divided into multiple secondary testing areas by using the inner isolation door 15 and the isolation wall 14 to increase testing efficiency.

[0027] Furthermore, the test chamber 8 is equipped with a platform 42 that is slidably connected to the bottom sealing plate 11. The bottom sealing plate 11 is also equipped with a track 111 for controlling the movement direction of the bottom sealing plate 11 and an interface 112 for fixing the platform 42.

[0028] Since many test objects are too small to be placed at the bottom, a platform 42 is provided to prevent the test objects from moving randomly and causing collisions. In order to prevent the platform 42 from moving randomly and causing collisions, a track 111 is provided to control the direction of movement of the platform 42, and an insertion interface 112 is provided for the platform 42 to be inserted, thereby fixing the position of the platform 42.

[0029] Furthermore, the detection assembly 5 includes a test unit 51, which is fixedly connected to an exhaust pipe 52 connected to the outside of the top sealing plate 31 and a filter screen 53 facing the detection chamber. The top sealing plate 31 is also provided with a channel 32 for guiding gas into the test unit 51.

[0030] The channel 32 is inclined and the air inlet of the channel 32 is located above the air intake fan 13;

[0031] The top enclosed plate 31 is also fixedly connected to a motor 33, which is connected to a rotating shaft 34 that is rotatably connected to the isolation wall 14. The rotating shaft 34 is fixedly connected to multiple cleaning brushes 35. One side of the rotating shaft 34 is located in the isolation room and the other side is located in the corridor 6. The corridor 6 is fixedly connected to a storage box 36 for receiving impurities.

[0032] The main detection method of the test unit 51 is to detect relevant parameters through flowing gas. However, the gas after detection may be contaminated, so an exhaust pipe 52 is required to guide the gas into a special device.

[0033] When the gas flows, small impurities will move with the gas. If impurities enter the testing unit, they will affect the testing results. Furthermore, impurities are more likely to flow with the gas in inclement weather. Therefore, a filter screen 53 is first installed at the air inlet of the testing unit 51, and a motor 33 is installed to drive the cleaning brush 35 to continuously clean the impurities on the filter screen 53 to avoid affecting the airflow speed. Since one side of the impeller is located in the isolation chamber and the other side is located in the corridor 6, and the testing unit itself has an air intake function, impurities will not fall in the isolation chamber where the gas is continuously flowing. When the impurities are moved to the corridor 6 by the cleaning brush 35, they will fall naturally into the collection box 36 under the action of gravity for easy subsequent cleaning.

[0034] In addition, since the inlet fan 13 itself has the ability to draw in gas from the outside, the channel 32 needs to be inclined and the air inlet is located above the inlet fan 13 to prevent external gas carrying impurities from directly impacting the filter screen 53, causing the filter screen 53 to break and impurities to enter the detection unit.

[0035] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are protected. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within the protection scope of this utility model.

Claims

1. A carbon emission monitoring frame device, characterized in that, The device includes a bottom bracket, which is detachably connected to multiple support frames. Each support frame is fixedly connected to a top bracket. The bottom bracket is also fixedly connected to an exterior wall panel that is slidably connected to the support frames and detachably connected to the top bracket. The bottom of the bottom bracket is also detachably connected to a bottom sealing plate and a support foot located below the bottom sealing plate. The bottom sealing plate is fixedly connected to multiple inlet fans. The bottom bracket is fixedly connected to a top sealing plate, and the top sealing plate is connected to a detection component.

2. The carbon emission monitoring frame device according to claim 1, characterized in that, The bottom support is also fixedly connected to a number of isolation walls that can be detachably connected to the top support and the outer wall panel. The isolation walls are detachably connected to an inner isolation door. The outer wall panel, the inner isolation door and the isolation walls separate a corridor, a number of buffer rooms and a number of test rooms. The buffer rooms are connected to the corridor and the test rooms through the inner isolation door. The corridor and the test rooms are not connected. The detection component is located in the test room.

3. The carbon emission monitoring frame device according to claim 1, characterized in that, The exterior wall panel is fixedly connected to an external isolation door that connects to the corridor.

4. The carbon emission monitoring frame device according to claim 2, characterized in that, The test chamber is equipped with a platform that is slidably connected to a bottom sealing plate. The bottom sealing plate is also equipped with a track for controlling the movement direction of the bottom sealing plate and an interface for fixing the platform.

5. A carbon emission monitoring frame device according to claim 2, characterized in that, The detection assembly includes a testing unit, which is fixedly connected to an exhaust pipe connected to the outside of the top sealing plate and a filter screen facing the detection chamber. The top sealing plate is also provided with a channel for guiding gas into the testing unit.

6. A carbon emission monitoring frame device according to claim 5, characterized in that, The channel is inclined and the air inlet of the channel is located above the air intake fan.

7. A carbon emission monitoring frame device according to claim 5, characterized in that, The top enclosure is also fixedly connected to a motor, which is connected to a rotating shaft that is rotatably connected to the isolation wall. The rotating shaft is fixedly connected to multiple cleaning brushes. One side of the rotating shaft is located inside the isolation room and the other side is located inside the corridor. The corridor is fixedly connected to a storage box for receiving impurities.

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